ta8210d 12.5w cw, 20~3000mhz gan power transistor · (32 pin 3×6×0.8mm qfn package) 2.0...
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TA8210D
TA8210D – 12.5W CW, 20~3000MHz GaN Power Transistor
1.0 Features
Small signal gain @ 800MHz: >17dB
Large signal gain @ 800MHz: 16dB
PSAT @ 800MHz: 42.5dBm
PAE @ PSAT @ 800MHz: 60%
28V operation
Operating frequency: 20MHz to 3GHz
Figure 1.1 Device Image (32 Pin 3×6×0.8mm QFN Package)
2.0 Applications Private mobile radio handsets
Public safety radios
Cellular infrastructure
Military radios
RoHS/REACH/Halogen Free Compliance
3.0 Description The TA8210D is a broadband capable 12.5W GaN on Silicon power
transistor covering 20MHz to 3GHz frequency bands for power
amplifier applications. The input and output can be matched on
board for best power and efficiency for the desired band.
The TA8210D is packaged in a compact, low cost Quad Flat No lead
(QFN) 3x6x0.8mm, 32 leads plastic package.
Figure 3.1 Function Block Diagram
(Top View)
4.0 Ordering Information
Table 4.1 Ordering Information
Base Part Number
Package Type Form Qty Reel
Diameter Reel
Width Orderable
Part Number
TA8210D 32 Pin 3×6×0.8mm
QFN Tape and Reel 3000 13” (330mm) 18mm TA8210DMTRPBF
Tuned Evaluation Board, 20 ~ 525MHz TA8210D-EVB-A
Tuned Evaluation Board, 100 ~ 1000MHz TA8210D-EVB-B
Tuned Evaluation Board, 1.8 ~ 2.7GHz TA8210D-EVB-C
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TA8210D
5.0 Pin Description
Table 5.1 Pin Definition Pin Number Pin Name Description
1, 2, 3, 9, 10, 11, 12, 13, 14,
15, 16, 17, 18, 19, 25, 26,
27, 28, 29, 30, 31, 32
NC No internal connection
4, 5, 6, 7, 8 VGG & RFIN Gate voltage and RF input
20, 21, 22, 23, 24 VDD & RFOUT Drain voltage and RF output
33[1] Paddle/Slug Ground
Note: [1] The backside ground slug of the device must be grounded directly to the ground plane through
multiple vias to ensure proper operation. Adequate heatsinking required.
6.0 Absolute Maximum Ratings
Table 6.1 Absolute Maximum Ratings @TA=+25°C Unless Otherwise Specified
Parameter Symbol Value Unit
Electrical Ratings
Breakdown voltage VDS +100 V
Gate voltage VGS -8 to +1.5 V
Drain current IDS 2 A
Gate current IGS 12 mA
Power dissipation CW Pdiss 25 W
RF input power CW, @800MHz RFIN 28 dBm
Storage Temperature Range Tst -55 to +150 °C
Operating Temperature Range Top -40 to +85 °C
Maximum Junction Temperature TJ +175 °C
Thermal Ratings
Thermal Resistance (junction-to-case) – Bottom side RθJC 4.0 °C/W
Thermal Resistance (junction-to-top) RθJT 40 °C/W
Soldering Temperature TSOLD 260 °C
ESD Ratings
Human Body Model (HBM) Level 1A 250 to <500 V
Charged Device Model (CDM) Level C1 250 to <500 V
Moisture Rating
Moisture Sensitivity Level MSL 1 -
Attention:
Maximum ratings are absolute ratings. Exposure to absolute maximum rating conditions for extended
periods may affect device reliability. Exceeding one or a combination of the absolute maximum ratings
may cause permanent and irreversible damage to the device and/or to surrounding circuit.
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TA8210D
7.0 RF Electrical Specifications
Table 7.1 Electrical Specifications @TA=+25°C Unless Otherwise Specified;
Parameter Condition Minimum Typical Maximum Unit
Small Signal Gain 800MHz 17 dB
Large Signal Gain POUT = 41dBm, 800MHz 16 dB
PSAT 800MHz 42.5 dBm
Power Added Efficiency (PAE) POUT = 41dBm 50 %
Drain Voltage 28 32 V
Ruggedness All phase, POUT = 41dBm VSWR = 10:1
Note: Data taken from 100 ~ 1000MHz broadband reference design (EVB), VD=+28V; IDQ=160mA, CW
8.0 Recommended Operating Conditions
Table 8.1 Recommended Operating Conditions
Parameter Symbol Minimum Typical Maximum Unit
Drain Voltage VDD +12 +28 +32 V
Gate Voltage VGG -3.4 -2.9 -2.6 V
Drain Bias Current IDQ 160 mA
Drain Current IDS 900 mA
Power Dissipation CW [1] Pdiss 18 W
Operating Temperature Range -40 +25 +85 °C
Note: [1] @TC = +85°C
9.0 Typical Characteristics
9.1 Characteristics of 20 ~ 525MHz EVB
Figure 9.1 Gain and Efficiency vs POUT
(VD=28V, IDQ=160mA, CW, TA=+25°C)
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TA8210D
9.2 Characteristics of 100 ~ 1000MHz EVB
Figure 9.2 Gain and Efficiency vs POUT (VD=28V, IDQ=160mA, CW, TA=+25°C)
Figure 9.3 2nd and 3rd Harmonic vs POUT (VD=28V, IDQ=160mA, CW, TA=+25°C)
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TA8210D
Figure 9.4 IRL and Pdiss vs POUT (VD=28V, IDQ=160mA, CW, TA=+25°C)
Figure 9.5 IMD3 vs PEP at 450MHz (Two Tone Power Drive-Up, VD=28V, IDQ=160mA & 200mA, 450MHz, Freq Spacing = 1MHz, CW,
TA=+25°C)
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TA8210D
Figure 9.6 IMD5 vs PEP at 450MHz (Two Tone Power Drive-Up, VD=28V, IDQ=160mA & 200mA, 450MHz, Freq Spacing = 1MHz, CW,
TA=+25°C)
Figure 9.7 Efficiency and Gain vs POUT over Temp at 800MHz (VD=28V, IDQ=160mA, CW, TA=+25°C)
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TA8210D
9.3 Characteristics of 1.8 ~ 2.7GHz EVB
Figure 9.8 S-Parameter (VD=28V, IDQ=200mA, CW, TA=+25°C)
Figure 9.9 Gain and Efficiency vs POUT (VD=28V, IDQ=200mA, LTE(PAPR=9.5dB), 10MHz BW, TA=+25°C)
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TA8210D
Figure 9.10 ACPR vs POUT (VD=28V, IDQ=200mA, LTE(PAPR=9.5dB), 10MHz BW, TA=+25°C)
Figure 9.11 AACPR vs POUT (VD=28V, IDQ=200mA, LTE(PAPR=9.5dB), 10MHz BW, TA=+25°C)
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TA8210D
10.0 Bias and Sequencing
Table 10.1 Bias and Sequencing
Turn ON Device Turn OFF Device
1. Set VG to -5V
2. Set VD to +28V
3. Adjust VG to reach required IDQ current
4. Apply RF power
1. Turn RF power off
2. Turn off VD
3. Turn off VG
11.0 Evaluation Boards
11.1 20 ~ 525MHz EVB
Figure 11.1 Schematic of the 20 ~ 525MHz EVB
Figure 11.2 Board Layout of the 20 ~ 525MHz EVB
L2
4.3nH
R333ohm
L1
4.3nH
C83.9pF
VDD
C1
4.7nF
Q1RF IN
Vgg
-v e C5
100uF
C9
4.7nF
C4
0.1uF
L4
6.8nH
RF OUT
R1
5ohm
R250ohm
L3
1uH
L5
6.8nH
C24.7pF
D1
C3
0.1uF
C66.8pF
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TA8210D
Table 11.1 BOM of the 20 ~ 525MHz EVB
Component ID Value Manufacturer Recommended Part Number
C1, C9 4.7nF, 50V Murata GRM1885C1H472JA01D
C2 4.7pF ATC 600S4R7CT250XT
L1 4.3nH Coilcraft 0603HP-4N3XGL
L2 4.3nH Coilcraft 0402CS-4N3XGL
L3 1.0uH Coilcraft PFL2512-102ME
L4 6.8nH Coilcraft 0603HP-6N8XJL
L5 6.8nH Coilcraft 0603HP-6N8XJL
C3 0.1uF, 10V AVX 0603ZC104K4T2A
C4 0.1uF, 50V Murata GRM31C5C1H104JA01L
C5 100uF Nichicon UPW1J101MPD1TD
C6 6.8pF ATC 600S6R8JT250XT
C8 3.9pF ATC 600S3R9CT250XT
R1 5.1Ω Panasonic ERJ-3RQF5R1V
R2 51Ω, 250mW Panasonic ERJ-PA3F51R0V
R3 33Ω, 250mW Panasonic ERJ-PA3F33R0V
D1 7.5 V Zener On Semiconductor SZMMSZ5236BT 1G
Q1 Tagore Technology TA8210D
PCB Rogers RO4350B, 20 mils, 2 oz copper
11.2 100 ~ 1000MHz EVB
Figure 11.3 Schematic of the 100 ~ 1000MHz EVB
C1
4.7nF
C3
0.1uF
R250ohm
D1
C83.3pFRF IN
C9
4.7nF
Vgg
-v e
C73.9pF
RF OUT
L2
3.3nH
C5
100uF
L1
3.3nH
R1
5ohm
R333ohm
C63.9pF
VDD
28V
L3
680nH
Q1
C4
0.1uF
L4
3.9nH
C24.7pF
L5
6nH
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TA8210D
Figure 11.4 Board Layout of the 100 ~ 1000MHz EVB
Table 11.2 BOM of the 100 ~ 1000MHz EVB
Component ID Value Manufacturer Recommended Part Number
C1, C9 4.7nF, 50V Murata GRM1885C1H472JA01D
C2 4.7pF ATC 600S4R7CT250XT
L1 3.3nH Coilcraft 0603HP-3N3XGL
L2 3.3nH Coilcraft 0402CS-3N3XGL
L3 680nH Coilcraft PFL2512-681ME
L4 3.9nH Coilcraft 0603HC-3N9XJL
L5 6nH Coilcraft 0603HP-6N0XGL
C3 0.1uF, 10V AVX 0603YC104K4T2A
C4 0.1uF, 50V Murata GRM31C5C1H104JA01K
C5 100uF Nichicon UPW1J101MPD1TD
C6, C7 3.9pF ATC 600S3R9CT250XT
C8 3.3pF ATC 600S3R3BT250XT
R1 5.1Ω Panasonic ERJ-3RQF5R1V
R2 51Ω, 250mW Panasonic ERJ-PA3F51R0V
R3 33Ω, 250mW Panasonic ERJ-PA3F33R0V
D1 7.5 V Zener On Semiconductor SZMMSZ5236BT 1G
Q1 Tagore Technology TA8210D
PCB Rogers RO4350B, 20 mils, 2 oz copper
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TA8210D
11.3 1.8 ~ 2.7GHz EVB
Figure 11.5 Schematic of the 1.8 ~ 2.7GHz EVB
Figure 11.6 Board Layout of the 1.8 ~ 2.7GHz EVB
C121.8pF
C15
0.1uF
C241.8pF
C142.2pF
R1133ohm
C21
0.1uF
VDD
28V
L11
1.0nH
C11
4.7nF
Q1
C26
100uF
RF IN
C132.4pF
C25
4.7nF
R21
5.1ohm
C22
4.7nF
RF OUT
Vgg
-v e
L22
22nH
L21
3.0nH
D11
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TA8210D
Table 11.3 BOM of the 1.8 ~ 2.7GHz EVB
Component ID Value Manufacturer Recommended Part Number
C11, C25 4.7nF, 50V Murata GRM1885C1H472JA01D
C12 1.8pF ATC 600S1R8BT250XT
L11 1.0nH Coilcraft 0402HP-1N0XJL
C13 2.4pF ATC 600S2R4BT250XT
C14 2.2pF ATC 600S2R2BT250XT
L21 3.0nH Coilcraft 1008HQ-3N0XJL
L22 22nH Coilcraft 0603HC-22NXJL
C22 4.7nF Murata GRM1885C1H472JA01D
C15 0.1uF, 10V AVX 0603ZC104K4T2A
C21 0.1uF, 50V Murata GRM31C5C1H104JA01L
C26 100uF Nichicon UPW1J101MPD1TD
C24 1.8pF ATC 800A1R8BT250XT
R11 33Ω, 250mW Panasonic ERJ-PA3F33R0V
R21 5.1Ω, 250mW Panasonic ERJ-PA3J5R1V
Q1 Tagore Technology TA8210D
D11 7.5 V Zener On Semiconductor SZMMSZ5236BT 1G
PCB Rogers RO4350B, 20 mils, 2 oz copper
12.0 Device Package Information
Figure 12.1 Device Package Drawing
(All dimensions are in mm)
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TA8210D
Table 12.1 Device Package Dimensions
Dimension (mm) Value (mm) Tolerance (mm) Dimension (mm) Value (mm) Tolerance (mm)
A 0.80 ±0.05 E 6.00 BSC ±0.05
A1 0.203 ±0.02 E1 5.00 ±0.05
b 0.20 +0.05/-0.07 F 0.90 ±0.05
D 3.00 BSC ±0.05 G 0.60 ±0.05
D1 2.00 ±0.05 L 0.25 ±0.05
e 0.40 BSC ±0.05 K 0.25 ±0.05
Note: Lead finish: Pure Sn without underlayer; Thickness: 7.5μm ~ 20μm (Typical 10μm ~ 12μm)
Attention: Please refer to application notes TN-001 and TN-002 at http://www.tagoretech.com for PCB and soldering related guidelines.
13.0 PCB Land Design Guidelines: [1] 2-layer PCB is recommended. [2] Via diameter is recommended to be 0.2mm to prevent solder wicking inside the vias. [3] Thermal vias shall only be placed on the center pad. [4] The maximum via number for the center pad is 4(X)×12(Y)=48.
Figure 13.1 PCB Land Pattern (Dimensions are in mm)
Non-Solder Mask Defined Solder Mask Defined
(Preferred)
Figure 13.2 Solder Mask Pattern
(Dimensions are in mm)
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TA8210D
Figure 13.3 Thermal Via Pattern (Recommended Values: S≥0.15mm; Y≥0.20mm; d=0.2mm; Plating Thickness t=25μm or 50μm)
14.0 PCB Stencil Design Guidelines: [1] Laser-cut, stainless steel stencil is recommended with electro-polished trapezoidal walls to improve
the paste release. [2] Stencil thickness is recommended to be 125μm.
Figure 14.1 Stencil Openings (Dimensions are in mm)
Figure 14.2 Stencil Openings Shall not Cover Via Areas If Possible
(Dimensions are in mm)
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TA8210D
15.0 Tape and Reel Information
Figure 15.1 Tape and Reel Drawing
Table 15.1 Tape and Reel Dimensions
Dimension (mm) Value (mm) Tolerance (mm) Dimension (mm) Value (mm) Tolerance (mm)
A0 3.35 ±0.10 K0 1.10 ±0.10
B0 6.35 ±0.10 P0 4.00 ±0.10
D0 1.50 +0.10/-0.00 P1 8.00 ±0.10
D1 1.50 +0.10/-0.00 P2 2.00 ±0.05
E 1.75 ±0.10 T 0.30 ±0.05
F 5.50 ±0.05 W 12.00 ±0.30
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TA8210D
Edition Revision 2.0 - 2019-11-15 Published by
Tagore Technology Inc.
5 East College Drive, Suite 200
Arlington Heights, IL 60004, USA
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